Optical fibres are favourable tabletop laboratories to investigate both coherent and
incoherent nonlinear waves. In particular, exact solutions of the one-dimensional nonlinear …

We report optical experiments allowing us to investigate integrable turbulence in the
focusing regime of the one-dimensional nonlinear Schrödinger equation (1D NLSE). In …

The science of rogue waves in optics is now over five years old, and it has emerged as an
area of broad interest to researchers across the physical sciences [1]. This area of study was …

We examine the statistical properties of nonlinear random waves that are ruled by the one-
dimensional defocusing and integrable nonlinear Schrödinger equation. Using fast …

We provide some general physical insights into the emergence of rogue wave events from
optical turbulence by analyzing the long term evolution of the field. Depending on the …

Optical rogue waves are rare, extreme fluctuations in the value of an optical field. The
term'optical rogue wave'was first used in the context of an analogy between pulse …

The Peregrine soliton is a localized nonlinear structure predicted to exist over 25 years ago,
but not so far experimentally observed in any physical system. It is of fundamental …

We theoretically and numerically evidence that optical rare and strong temporal events
generated in fiber supercontinua originate from convective modulational instabilities. This …

We present a numerical study of the evolution dynamics of “optical rogue waves”, statistically-
rare extreme red-shifted soliton pulses arising from supercontinuum generation in photonic …

In the presence of many waves, giant events can occur with a probability higher than
expected for random dynamics. By studying linear light propagation in a glass fiber, we …